Ultimate Electrical Circuits for Electrical Engineering

Overview

Learn electric circuits from scratch without any previous knowledge with dozens of examples in electrical engineering

What you'll learn:

know all the fundamentals of electric circuits
know the meaning of SI units or international units in electric circuits
Know the definition of the electric charge in electric circuits
Know the definition of the electric current in electric circuits
Know the definition of voltage in electric circuits
Know the definition of power in electric circuits
Know the definition of energy in electric circuits
Definition of conductance in electric circuits
Know the difference between dependent and independent sources
Applications of DC circuits in electric circuits
Know the principle of the TV picture tube or CRT in electric circuits
Know the basic laws of electricity in electric circuits
Know about the electricity bills calculations in electric circuits
Understand Ohm's law in electric circuits
Know the definition of the nodes, branches and loops in electric circuits
Know the definition of Kirchhoff's laws in electric circuits
Know the definition of Kirchhoff's current law in electric circuits
Know the definition of Kirchhoff voltage law in electric circuits
Know series resistor and voltage division in electric circuits
Know parallel resistor and current division in electric circuits
Know Wye-Delta transformations in electric circuits
Understand applications as lighting systems in electric circuits
Understand Nodal analysis in electric circuits
Understand Nodal analysis with voltage sources in electric circuits
Understand the supernode in electric circuits
Understand Mesh analysis in electric circuits
Understand Mesh analysis with current sources in electric circuits
Understand the Supermesh in electric circuits
Understand How to use the Cramer method in electric circuits
Comparison between Nodal and Mesh analysis in electric circuits
Understand applications as DC transistor circuits in electric circuits
Understand the meaning of the linearity property in electric circuits
Use the Superposition theorem in electric circuits
Understand Thevenin's theorem in electric circuits
Understand Norton's theorem in electric circuits
Maximum power transfer in electric circuits
Understand the various types of operational amplifiers in electric circuits
Understand ideal Op-Amp, inverting Amplifier, non-inverting amplifier in electric circuits
Understand summing Op-Amp circuit in electric circuits
Understand the difference Op-Amp circuit in electric circuits
Understand cascaded Op-Amp circuit in electric circuits
Know the applications of Op-Amp like digital-to-analog converter in electric circuits
Know the applications of Op-Amp like instrumentation amplifiers in electric circuits
Know what is a capacitor in electric circuits
Understand how to simplify series capacitors in electric circuits
Understand how to simplify parallel capacitors in electric circuits
Know how to get energy stored in capacitors in electric circuits
Know what is an inductor in electric circuits
Understand how to simplify series inductors in electric circuits
Understand how to simplify parallel inductors in electric circuits
Know how to get energy stored in the inductor in electric circuits
know the applications of capacitors and inductors as integrators in electric circuits
know the applications of capacitors and inductors as differentiators in electric circuits
Understand practical capacitors and practical inductors in electric circuits
Simulation of basic electric circuits
Simulation of operational amplifiers
Simulation of charging and discharging of a capacitor
Simulation of a source-free RL circuit
Simulation of a source-free RC circuit
Source-free RC circuit
Solved examples on source-free RC circuits
Source-free RL circuit
Solved examples on source-free RL circuits
Step response of an RC circuit
Solved examples on step response of an RC circuit
Step response of an RL circuit
Solved examples on step response of an RL circuit
Simulation of the step response of an RL circuit
Simulation of the step response of an RC circuit
AC electric circuits
Phasor representation of AC
Phasor relationships for circuit elements
Impedance and admittance
Kirchhoff’s laws and impedance combinations in the frequency domain
Application of nodal analysis in AC circuits
Application of mesh analysis in AC circuits
Application of Thevenin and Norton theorems in AC circuits
Application of source transformation in AC systems
Application of superposition theorem in AC circuits
Importance and applications of resonant circuits
Definition and equations of a series resonant circuit
Quality factor of a series resonant circuit
Total impedance VS frequency in a series resonant circuit
Bandwidth and selectivity curve of a series resonant circuit
Derivation of cutoff frequencies
Solution of solved examples on series resonant circuit
Parallel resonant circuit
Unity power factor of a parallel resonant circuit
Maximum impedance of a parallel resonant circuit
Quality factor of a parallel resonant circuit
Bandwidth and cutoff frequencies of a parallel resonant circuit
Effect of high quality factor on the parallel resonant circuit
Instantaneous power and average power
Maximum average power transfer
Effective or RMS value in AC circuits
Apparent power and power factor
Complex power and power triangle
Power factor correction

"Ultimate Electric Circuits Course from A to Z for Beginners"

This is the only course with everything you need to know about the basics of electric circuits for complete beginners without any previous knowledge.

This course starts with the basic concepts of electricity to the level you will be very familiar with circuits.

Throughout the course you will get:

Basics concepts of electric circuits: This will help you understand the very basic definitions of electricity including voltage, current, power, and more.

Basic laws of electric circuits: This part will teach you about the branches, nodes, KVL, KCL, Ohm's law, and Delta-Wye transformations.
Methods of analysis: You will learn how to analyze electric circuits using nodal analysis and mesh analysis.
Circuit theorems: In this part, you will learn more advanced circuit analysis techniques such as the superposition theorem, source transformation theorem, Thevenin theorem, Norton theorem, and maximum power transfer.
Operational amplifiers: You will be introduced to operational amplifiers including inverting, non-inverting, summing, difference, and cascaded amplifiers. These amplifiers are helpful in inverting or amplification or adding or subtracting different input signals.
Capacitors and inductors: These components are really important in the electrical system and other applications. You will find inductors as a representation of electrical machines and capacitors that can be used in power factor correction.
First-order circuits: These circuits are composed of resistors and inductors or resistors and capacitors. We will understand how to analyze them in the free and forced responses.
Basics of AC circuits: AC power or alternating power is the one which we have in our homes. We will learn about them and what is the difference between them and AC circuits.
Analysis of AC circuits: In this part, we will start analyzing our AC circuits with the different theorems that had been discussed at the beginning of the course.
Resonant circuits: In this part, we will discuss both series and parallel resonant circuits, these circuits have a crucial effect on electric circuits as well as have practical applications.
Electric circuit simulations using MATLAB: We will learn the simulation of many electric circuits in the well-known simulation program MATLAB Simulink. This will be a fun part that will increase your knowledge about electric circuits.

All of these topics are in a step by step lessons with many solved examples.

Bonus Gift:

You will find also the slides for the Ultimate Electric Circuits Course Bundle for those who are interested in them or having them as a revision for themselves: